Neeraj Kumar Misra

Work place: Department of Electronics Engineering, Lucknow, India Institute of Engineering and Technology

E-mail: srpiet@gmail.com

Website:

Research Interests: Cellular Automata, Logic Circuit Theory

Biography

Er. Neeraj Kumar Misra is pursuing a Ph.D program under TEQIP-II in the Department of Electronics Engineering at the Institute of Engineering & Technology, (IET) Lucknow, U. P. He completed his B.Tech in Electronics and Communication Engineering from Integral University and M.Tech from Amity University, in 2008 and 2012 respectively. His research interests include Reversible logic, fault-tolerant Digital Design, Logic around Quantum-Dot Cellular Automata, Circuit and architectures for emerging nanotechnology, Low power VLSI.

Author Articles
Design of Quantum Dot Cellular Automata Based Parity Generator and Checker with Minimum Clocks and Latency

By Prateek Agrawal S.R.P.Sinha Neeraj Kumar Misra Subodh Wairya

DOI: https://doi.org/10.5815/ijmecs.2016.08.02, Pub. Date: 8 Aug. 2016

Quantum-dot Cellular Automata is an alternative to CMOS technology for the future digital designs. When compared to its CMOS counterpart, it has extremely low power consumption, as there is no current flow in cell. The methodology of parity generator and checker is based on the parity generation and matched it at the receiver end. By using the parity match bits, the error in circuit can be sensed. In this paper, novel parity generator and detector circuit are introduced. The circuit is designed in single layer, minimum clock and minimum latency, which is achieved in QCA framework. The proposed circuits are better than the existing in terms of clock cycle delay, cell complexity and clock cycle utilize. The simulation of presented cell structures have been verified using QCA designer tool. In addition, QCA Probabilistic (QCAPro) tool is used to calculate the minimum, maximum and average energy dissipation aspect in proposed QCA circuit. Appropriate comparison table and power analysis is shown to prove that our proposed circuit is cost effective.

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